Datasets:
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python | 001_RM-Bench_Benchmarking_Reward_Models_of_Language_Mo | 0 | 001_RM-Bench_Benchmarking_Reward_Models_of_Language_Mo | RM-Bench: Benchmarking Reward Models of Language Models with Subtlety and Style | Evaluation Metrics | compute_accuracy | code/scripts/utils.py | Evaluation/Results - Core evaluation methodology implementation | 001_rm_bench_test | mmsci-py-001-rm-bench:latest |
python | 001_RM-Bench_Benchmarking_Reward_Models_of_Language_Mo | 1 | 001_RM-Bench_Benchmarking_Reward_Models_of_Language_Mo | RM-Bench: Benchmarking Reward Models of Language Models with Subtlety and Style | Evaluation Metrics | convert_robust_dataset_to_preference_dataset_list | code/scripts/utils.py | Methods/Data Processing - Dataset construction and processing methodology | 001_rm_bench_test | mmsci-py-001-rm-bench:latest |
python | 002_TopoLM_brain-like_spatio-functional_organization_i | 0 | 002_TopoLM_brain-like_spatio-functional_organization_i | TopoLM: brain-like spatio-functional organization in a topographic language model | Deep Learning Architecture with Spatial Organization | spatial_loss_fn | code/models/positions.py | Methods | 002_topolm_test | mmsci-py-002-topolm:latest |
python | 002_TopoLM_brain-like_spatio-functional_organization_i | 1 | 002_TopoLM_brain-like_spatio-functional_organization_i | TopoLM: brain-like spatio-functional organization in a topographic language model | Deep Learning Architecture with Spatial Organization | local_spatial_loss | code/models/positions.py | Methods | 002_topolm_test | mmsci-py-002-topolm:latest |
python | 003_Knowledge_Entropy_Decay_during_Language_Model_Pret | 0 | 003 | Knowledge Entropy Decay during Language Model Pretraining Hinders New Knowledge Acquisition | Language Model Analysis and Enhancement | turn_into_entropy | code/analysis/entropy.py | Methods | 003_knowledge_entropy_test | mmsci-py-003-knowledge-entropy:latest |
python | 003_Knowledge_Entropy_Decay_during_Language_Model_Pret | 1 | 003 | Knowledge Entropy Decay during Language Model Pretraining Hinders New Knowledge Acquisition | Language Model Analysis and Enhancement | main | code/analysis/entropy.py | Methods | 003_knowledge_entropy_test | mmsci-py-003-knowledge-entropy:latest |
python | 003_Knowledge_Entropy_Decay_during_Language_Model_Pret | 2 | 003 | Knowledge Entropy Decay during Language Model Pretraining Hinders New Knowledge Acquisition | Language Model Analysis and Enhancement | main | code/analysis/change_parameters.py | Methods | 003_knowledge_entropy_test | mmsci-py-003-knowledge-entropy:latest |
python | 005_Measuring_and_Enhancing_Trustworthiness_of_LLMs_in | 0 | 005 | Measuring and Enhancing Trustworthiness of LLMs in RAG through Grounded Attributions and Learning to Refuse | RAG Trustworthiness and Alignment | compute_trust_score | code/trust_eval/trust_eval/metrics.py | Methods | 005_trust_align_test | mmsci-py-005-trust-align:latest |
python | 005_Measuring_and_Enhancing_Trustworthiness_of_LLMs_in | 1 | 005 | Measuring and Enhancing Trustworthiness of LLMs in RAG through Grounded Attributions and Learning to Refuse | RAG Trustworthiness and Alignment | compute_citation_metrics | code/trust_eval/trust_eval/metrics.py | Methods | 005_trust_align_test | mmsci-py-005-trust-align:latest |
python | 005_Measuring_and_Enhancing_Trustworthiness_of_LLMs_in | 2 | 005 | Measuring and Enhancing Trustworthiness of LLMs in RAG through Grounded Attributions and Learning to Refuse | RAG Trustworthiness and Alignment | compute_macro_metrics | code/trust_eval/trust_eval/metrics.py | Methods | 005_trust_align_test | mmsci-py-005-trust-align:latest |
python | 006_MAP_Multi-Human-Value_Alignment_Palette | 0 | 006 | MAP: Multi-Human-Value Alignment Palette | Multi-Human-Value Alignment | optimize_lambda | code/alignMAP/core/alignment.py | Methods | 006_map_alignment_test | mmsci-py-006-map-alignment:latest |
python | 006_MAP_Multi-Human-Value_Alignment_Palette | 1 | 006 | MAP: Multi-Human-Value Alignment Palette | Multi-Human-Value Alignment | _dual_objective | code/alignMAP/core/alignment.py | Methods | 006_map_alignment_test | mmsci-py-006-map-alignment:latest |
python | 006_MAP_Multi-Human-Value_Alignment_Palette | 2 | 006 | MAP: Multi-Human-Value Alignment Palette | Multi-Human-Value Alignment | sequential_optimize_lambda | code/alignMAP/core/alignment.py | Methods | 006_map_alignment_test | mmsci-py-006-map-alignment:latest |
python | 007_Spread_Preference_Annotation_Direct_Preference_Jud | 0 | 007 | Spread Preference Annotation: Direct Preference Judgment for Efficient LLM Alignment | Direct Preference Optimization with Self-Refinement | dpo_loss | code/trl/trl/trainer/dpo_trainer.py | Methods | 007_spa_test | mmsci-py-007-spa:latest |
python | 007_Spread_Preference_Annotation_Direct_Preference_Jud | 1 | 007 | Spread Preference Annotation: Direct Preference Judgment for Efficient LLM Alignment | Direct Preference Optimization with Self-Refinement | confidence_update | code/trl/trl/trainer/dpo_trainer.py | Methods | 007_spa_test | mmsci-py-007-spa:latest |
python | 007_Spread_Preference_Annotation_Direct_Preference_Jud | 2 | 007 | Spread Preference Annotation: Direct Preference Judgment for Efficient LLM Alignment | Direct Preference Optimization with Self-Refinement | get_batch_loss_metrics | code/trl/trl/trainer/dpo_trainer.py | Methods | 007_spa_test | mmsci-py-007-spa:latest |
python | 009_Brain_Bandit_A_Biologically_Grounded_Neural_Networ | 0 | 009 | Brain Bandit: A Biologically Grounded Neural Network for Efficient Control of Exploration | Biologically Grounded Neural Networks for Exploration | decide_simulation_multi_dim | code/model/Lyapunov_Worm_deconstruction.py | Methods | 009_brain_bandit_test | mmsci-py-009-brain-bandit:latest |
python | 009_Brain_Bandit_A_Biologically_Grounded_Neural_Networ | 1 | 009 | Brain Bandit: A Biologically Grounded Neural Network for Efficient Control of Exploration | Biologically Grounded Neural Networks for Exploration | theory_calculation | code/model/Lyapunov_Worm_deconstruction.py | Methods | 009_brain_bandit_test | mmsci-py-009-brain-bandit:latest |
python | 009_Brain_Bandit_A_Biologically_Grounded_Neural_Networ | 2 | 009 | Brain Bandit: A Biologically Grounded Neural Network for Efficient Control of Exploration | Biologically Grounded Neural Networks for Exploration | egreedy | code/MDP/agent.py | Methods | 009_brain_bandit_test | mmsci-py-009-brain-bandit:latest |
python | 011_Standard_Gaussian_Process_is_All_You_Need_for_High | 0 | 011 | Standard Gaussian Process is All You Need for High-Dimensional Bayesian Optimization | High-Dimensional Bayesian Optimization with Standard GP | __init__ | code/baselines/GP.py | Methods | 011_gp_hdbo_test | mmsci-py-011-gp-hdbo:latest |
python | 011_Standard_Gaussian_Process_is_All_You_Need_for_High | 1 | 011 | Standard Gaussian Process is All You Need for High-Dimensional Bayesian Optimization | High-Dimensional Bayesian Optimization with Standard GP | train_model_ADAM | code/ablation/gp_ablation.py | Methods | 011_gp_hdbo_test | mmsci-py-011-gp-hdbo:latest |
python | 011_Standard_Gaussian_Process_is_All_You_Need_for_High | 2 | 011 | Standard Gaussian Process is All You Need for High-Dimensional Bayesian Optimization | High-Dimensional Bayesian Optimization with Standard GP | BO_loop_GP | code/baselines/BO_loop.py | Methods | 011_gp_hdbo_test | mmsci-py-011-gp-hdbo:latest |
python | 012_Oscillatory_State-Space_Models | 0 | 012 | Oscillatory State-Space Models | Oscillatory State-Space Models for Sequence Learning | apply_linoss_im | code/models/LinOSS.py | Methods | 012_oscillatory_state_space_models_test | mmsci-py-012-oscillatory-state-space-models:latest |
python | 012_Oscillatory_State-Space_Models | 1 | 012 | Oscillatory State-Space Models | Oscillatory State-Space Models for Sequence Learning | apply_linoss_imex | code/models/LinOSS.py | Methods | 012_oscillatory_state_space_models_test | mmsci-py-012-oscillatory-state-space-models:latest |
python | 012_Oscillatory_State-Space_Models | 2 | 012 | Oscillatory State-Space Models | Oscillatory State-Space Models for Sequence Learning | binary_operator | code/models/LinOSS.py | Methods | 012_oscillatory_state_space_models_test | mmsci-py-012-oscillatory-state-space-models:latest |
python | 013_Attention_as_a_Hypernetwork | 0 | 013 | Attention as a Hypernetwork | Hypernetwork Attention Mechanisms | DotProductAttention.__call__ | code/hyla/models/attention.py | Methods | 013_attention_as_hypernetwork_test | mmsci-py-013-attention-as-hypernetwork:latest |
python | 013_Attention_as_a_Hypernetwork | 1 | 013 | Attention as a Hypernetwork | Hypernetwork Attention Mechanisms | MultiHeadDotProductAttention.__call__ | code/hyla/models/attention.py | Methods | 013_attention_as_hypernetwork_test | mmsci-py-013-attention-as-hypernetwork:latest |
python | 013_Attention_as_a_Hypernetwork | 2 | 013 | Attention as a Hypernetwork | Hypernetwork Attention Mechanisms | apply_fuzzy_logic | code/hyla/data/logic.py | Methods | 013_attention_as_hypernetwork_test | mmsci-py-013-attention-as-hypernetwork:latest |
python | 014_Energy-based_Backdoor_Defense_Against_Federated_Gr | 0 | 014 | Energy-based Backdoor Defense Against Federated Graph Learning | Energy-based Backdoor Defense for Federated Graph Learning | adjust_bn_layers | code/node_code/models/GCN.py | Methods | 014_energy_backdoor_defense_test | mmsci-py-014-energy-backdoor-defense:latest |
python | 014_Energy-based_Backdoor_Defense_Against_Federated_Gr | 1 | 014 | Energy-based Backdoor Defense Against Federated Graph Learning | Energy-based Backdoor Defense for Federated Graph Learning | select_models_based_on_energy | code/node_code/helpers/select_models_by_energy.py | Methods | 014_energy_backdoor_defense_test | mmsci-py-014-energy-backdoor-defense:latest |
python | 015_Toward_Guidance-Free_AR_Visual_Generation_via_Cond | 0 | 015 | Toward Guidance-Free AR Visual Generation via Condition Contrastive Alignment | Guidance-Free Autoregressive Visual Generation | train_step | code/VAR_CCA_trainer.py | Methods | 015_guidance_free_ar_generation_test | mmsci-py-015-guidance-free-ar-generation:latest |
python | 015_Toward_Guidance-Free_AR_Visual_Generation_via_Cond | 1 | 015 | Toward Guidance-Free AR Visual Generation via Condition Contrastive Alignment | Guidance-Free Autoregressive Visual Generation | __init__ | code/VAR_CCA_trainer.py | Methods | 015_guidance_free_ar_generation_test | mmsci-py-015-guidance-free-ar-generation:latest |
python | 015_Toward_Guidance-Free_AR_Visual_Generation_via_Cond | 2 | 015 | Toward Guidance-Free AR Visual Generation via Condition Contrastive Alignment | Guidance-Free Autoregressive Visual Generation | main | code/LlamaGen_finetune.py | Methods | 015_guidance_free_ar_generation_test | mmsci-py-015-guidance-free-ar-generation:latest |
python | 016_RMP-SAM_Towards_Real-Time_Multi-Purpose_Segment_An | 0 | 016 | RMP-SAM: Towards Real-Time Multi-Purpose Segment Anything | Real-Time Multi-Purpose Segment Anything | mask_pool | code/seg/models/utils/mask_pool.py | Methods | 016_rmp_sam_test | mmsci-py-016-rmp-sam:latest |
python | 016_RMP-SAM_Towards_Real-Time_Multi-Purpose_Segment_An | 1 | 016 | RMP-SAM: Towards Real-Time Multi-Purpose Segment Anything | Real-Time Multi-Purpose Segment Anything | forward | code/seg/models/heads/yoso_head.py | Methods | 016_rmp_sam_test | mmsci-py-016-rmp-sam:latest |
python | 016_RMP-SAM_Towards_Real-Time_Multi-Purpose_Segment_An | 2 | 016 | RMP-SAM: Towards Real-Time Multi-Purpose Segment Anything | Real-Time Multi-Purpose Segment Anything | forward | code/seg/models/heads/rapsam_head.py | Methods | 016_rmp_sam_test | mmsci-py-016-rmp-sam:latest |
python | 017_Residual_Deep_Gaussian_Processes_on_Manifolds | 0 | 017 | Residual Deep Gaussian Processes on Manifolds | Residual Deep Gaussian Processes on Manifolds | sphere_expmap | code/experiments/utils.py | Methods | 017_test | mmsci-py-017:latest |
python | 018_Learning_to_Discretize_Denoising_Diffusion_ODEs | 0 | 018 | Learning to Discretize Denoising Diffusion ODEs | Learning to Discretize Denoising Diffusion ODEs | discretize_model_wrapper | code/trainer.py | Methods | 018_test | mmsci-py-018:latest |
python | 018_Learning_to_Discretize_Denoising_Diffusion_ODEs | 1 | 018 | Learning to Discretize Denoising Diffusion ODEs | Learning to Discretize Denoising Diffusion ODEs | _train_to_match_prior | code/trainer.py | Methods | 018_test | mmsci-py-018:latest |
python | 018_Learning_to_Discretize_Denoising_Diffusion_ODEs | 2 | 018 | Learning to Discretize Denoising Diffusion ODEs | Learning to Discretize Denoising Diffusion ODEs | marginal_lambda | code/noise_schedulers.py | Methods | 018_test | mmsci-py-018:latest |
python | 019_Do_I_Know_This_Entity_Knowledge_Awareness_and_Hall | 0 | 019 | Do I Know This Entity? Knowledge Awareness and Hallucinations in Language Models | Knowledge Awareness and Hallucination Detection with SAE Analysis | compute_is_known | code/dataset/process_data/wikidata/check_correctness_wikidata.py | Methods | 019_test | mmsci-py-019:latest |
python | 019_Do_I_Know_This_Entity_Knowledge_Awareness_and_Hall | 1 | 019 | Do I Know This Entity? Knowledge Awareness and Hallucinations in Language Models | Knowledge Awareness and Hallucination Detection with SAE Analysis | get_per_layer_latent_scores | code/mech_interp/feature_analysis_utils.py | Methods | 019_test | mmsci-py-019:latest |
python | 019_Do_I_Know_This_Entity_Knowledge_Awareness_and_Hall | 2 | 019 | Do I Know This Entity? Knowledge Awareness and Hallucinations in Language Models | Knowledge Awareness and Hallucination Detection with SAE Analysis | steer_sae_latents | code/mech_interp/hooks_utils.py | Methods | 019_test | mmsci-py-019:latest |
python | 020_TetSphere_Splatting_Representing_High-Quality_Geom | 0 | 020 | TetSphere Splatting: Representing High-Quality Geometry with Lagrangian Volumetric Meshes | TetSphere Splatting for High-Quality Geometry Representation | solve_milp | code/data/generate_init_spheres.py | Methods | 020_test | mmsci-py-020:latest |
python | 020_TetSphere_Splatting_Representing_High-Quality_Geom | 1 | 020 | TetSphere Splatting: Representing High-Quality Geometry with Lagrangian Volumetric Meshes | TetSphere Splatting for High-Quality Geometry Representation | forward | code/energies/smooth_barrier.py | Methods | 020_test | mmsci-py-020:latest |
python | 020_TetSphere_Splatting_Representing_High-Quality_Geom | 2 | 020 | TetSphere Splatting: Representing High-Quality Geometry with Lagrangian Volumetric Meshes | TetSphere Splatting for High-Quality Geometry Representation | forward | code/renderers/mesh_rasterizer.py | Methods | 020_test | mmsci-py-020:latest |
python | 021_Copyright-Protected_Language_Generation_via_Adapti | 0 | 021 | Copyright-Protected Language Generation via Adaptive Model Fusion | Model Fusion Algorithm | solve_optimization | code/cp_fuse/cp_fuse/cp_model.py | Methods | 021_test | mmsci-py-021:latest |
python | 021_Copyright-Protected_Language_Generation_via_Adapti | 1 | 021 | Copyright-Protected Language Generation via Adaptive Model Fusion | Model Fusion Algorithm | _optimize_grid | code/cp_fuse/cp_fuse/cp_model.py | Methods | 021_test | mmsci-py-021:latest |
python | 021_Copyright-Protected_Language_Generation_via_Adapti | 2 | 021 | Copyright-Protected Language Generation via Adaptive Model Fusion | Model Fusion Algorithm | objective | code/cp_fuse/cp_fuse/cp_model.py | Methods | 021_test | mmsci-py-021:latest |
python | 022_BIRD_A_Trustworthy_Bayesian_Inference_Framework_fo | 0 | 022 | BIRD: A Trustworthy Bayesian Inference Framework for Large Language Models | Bayesian Inference Framework | Probnetwork.forward | code/code/run/scenario_train.py | Methods | 022_test | mmsci-py-022:latest |
python | 023_Rethinking_Reward_Modeling_in_Preference-based_Lar | 0 | 023 | Rethinking Reward Modeling in Preference-based Large Language Model Alignment | Reinforcement Learning from Human Feedback | forward_siamese | code/networks.py | Methods | 023_test | mmsci-py-023:latest |
python | 023_Rethinking_Reward_Modeling_in_Preference-based_Lar | 1 | 023 | Rethinking Reward Modeling in Preference-based Large Language Model Alignment | Reinforcement Learning from Human Feedback | train_model | code/networks.py | Methods | 023_test | mmsci-py-023:latest |
python | 023_Rethinking_Reward_Modeling_in_Preference-based_Lar | 2 | 023 | Rethinking Reward Modeling in Preference-based Large Language Model Alignment | Reinforcement Learning from Human Feedback | cross_prompt_data_generation | code/step5_train_rms.py | Methods | 023_test | mmsci-py-023:latest |
python | 024_Progressive_distillation_induces_an_implicit_curri | 0 | 024 | Progressive distillation induces an implicit curriculum | Knowledge Distillation and Training Optimization | KLTrainer_progressive.training_step | code/PCFG_autoregressive/components/KL_trainer_progressive.py | Methods | 024_test | mmsci-py-024:latest |
python | 024_Progressive_distillation_induces_an_implicit_curri | 1 | 024 | Progressive distillation induces an implicit curriculum | Knowledge Distillation and Training Optimization | KLTrainer_progressive.compute_loss | code/PCFG_autoregressive/components/KL_trainer_progressive.py | Methods | 024_test | mmsci-py-024:latest |
python | 026_SD-LoRA_Scalable_Decoupled_Low-Rank_Adaptation_for | 0 | 026 | SD-LoRA: Scalable Decoupled Low-Rank Adaptation for Class Incremental Learning | Low-Rank Adaptation for Continual Learning | _LoRA_qkv_timm_train.forward | code/backbone/lora.py | Methods | 026_test | mmsci-py-026:latest |
python | 026_SD-LoRA_Scalable_Decoupled_Low-Rank_Adaptation_for | 1 | 026 | SD-LoRA: Scalable Decoupled Low-Rank Adaptation for Class Incremental Learning | Low-Rank Adaptation for Continual Learning | LoRA_ViT_timm.__init__ | code/backbone/lora.py | Methods | 026_test | mmsci-py-026:latest |
python | 026_SD-LoRA_Scalable_Decoupled_Low-Rank_Adaptation_for | 2 | 026 | SD-LoRA: Scalable Decoupled Low-Rank Adaptation for Class Incremental Learning | Low-Rank Adaptation for Continual Learning | compute_ortho_loss | code/backbone/lora.py | Methods | 026_test | mmsci-py-026:latest |
python | 027_Improving_Probabilistic_Diffusion_Models_With_Opti | 0 | 027 | Improving Probabilistic Diffusion Models With Optimal Diagonal Covariance Matching | Deep Learning - Diffusion Models with Optimal Transport | _predict_cov_x0 | code/core/diffusion/dtdpm.py | Methods | 027_test | mmsci-py-027:latest |
python | 027_Improving_Probabilistic_Diffusion_Models_With_Opti | 1 | 027 | Improving Probabilistic Diffusion Models With Optimal Diagonal Covariance Matching | Deep Learning - Diffusion Models with Optimal Transport | dt_dsdm | code/core/criterions/ddpm.py | Methods | 027_test | mmsci-py-027:latest |
python | 027_Improving_Probabilistic_Diffusion_Models_With_Opti | 2 | 027 | Improving Probabilistic Diffusion Models With Optimal Diagonal Covariance Matching | Deep Learning - Diffusion Models with Optimal Transport | _predict_cov_prev | code/core/diffusion/dtdpm.py | Methods | 027_test | mmsci-py-027:latest |
python | 029_MLE-bench_Evaluating_Machine_Learning_Agents_on_Ma | 0 | 029 | MLE-bench: Evaluating Machine Learning Agents on Machine Learning Engineering | Evaluation Methodology | get_familiarity_score | code/experiments/familiarity/familiarity.py | Methods | 029_test | mmsci-py-029:latest |
python | 029_MLE-bench_Evaluating_Machine_Learning_Agents_on_Ma | 1 | 029 | MLE-bench: Evaluating Machine Learning Agents on Machine Learning Engineering | Evaluation Methodology | grade_csv | code/mlebench/grade.py | Methods | 029_test | mmsci-py-029:latest |
python | 029_MLE-bench_Evaluating_Machine_Learning_Agents_on_Ma | 2 | 029 | MLE-bench: Evaluating Machine Learning Agents on Machine Learning Engineering | Evaluation Methodology | get_per_comp_performance | code/experiments/familiarity/familiarity.py | Methods | 029_test | mmsci-py-029:latest |
python | 030_Subgraph_Federated_Learning_for_Local_Generalizati | 0 | 030_Subgraph_Federated_Learning_for_Local_Generalizati | Subgraph Federated Learning for Local Generalization | Federated Learning with Graph Neural Networks | train | code/model/client.py | Methods | 030_test | mmsci-py-030:latest |
python | 030_Subgraph_Federated_Learning_for_Local_Generalizati | 1 | 030_Subgraph_Federated_Learning_for_Local_Generalizati | Subgraph Federated Learning for Local Generalization | Federated Learning with Graph Neural Networks | update | code/model/server.py | Methods | 030_test | mmsci-py-030:latest |
python | 030_Subgraph_Federated_Learning_for_Local_Generalizati | 2 | 030_Subgraph_Federated_Learning_for_Local_Generalizati | Subgraph Federated Learning for Local Generalization | Federated Learning with Graph Neural Networks | forward | code/embedder/classifier.py | Methods | 030_test | mmsci-py-030:latest |
python | 031_Amortized_Control_of_Continuous_State_Space_Feynma | 0 | 031_Amortized_Control_of_Continuous_State_Space_Feynma | Amortized Control of Continuous State Space Feynman-Kac Model for Irregular Time Series | Continuous Dynamical Models | parallel_compute | code/lib/sde.py | Section 3.3 | 031_test | mmsci-py-031:latest |
python | 031_Amortized_Control_of_Continuous_State_Space_Feynma | 1 | 031_Amortized_Control_of_Continuous_State_Space_Feynma | Amortized Control of Continuous State Space Feynman-Kac Model for Irregular Time Series | Continuous Dynamical Models | get_matrix | code/lib/sde.py | Section 3.3 | 031_test | mmsci-py-031:latest |
python | 031_Amortized_Control_of_Continuous_State_Space_Feynma | 2 | 031_Amortized_Control_of_Continuous_State_Space_Feynma | Amortized Control of Continuous State Space Feynman-Kac Model for Irregular Time Series | Continuous Dynamical Models | associative_scan | code/lib/jax_compat.py | Section 3.3 and Appendix C | 031_test | mmsci-py-031:latest |
python | 032_Cheating_Automatic_LLM_Benchmarks_Null_Models_Achi | 0 | 032_Cheating_Automatic_LLM_Benchmarks_Null_Models_Achi | Cheating Automatic LLM Benchmarks: Null Models Achieve High Win Rates | Adversarial Machine Learning | random_search_optimization | code/adversarial_benchmarking.py | Methods | 032_test | mmsci-py-032:latest |
python | 032_Cheating_Automatic_LLM_Benchmarks_Null_Models_Achi | 1 | 032_Cheating_Automatic_LLM_Benchmarks_Null_Models_Achi | Cheating Automatic LLM Benchmarks: Null Models Achieve High Win Rates | Adversarial Machine Learning | derandomize_tokens_inplace | code/adversarial_benchmarking.py | Methods | 032_test | mmsci-py-032:latest |
python | 032_Cheating_Automatic_LLM_Benchmarks_Null_Models_Achi | 2 | 032_Cheating_Automatic_LLM_Benchmarks_Null_Models_Achi | Cheating Automatic LLM Benchmarks: Null Models Achieve High Win Rates | Adversarial Machine Learning | create_structured_response | code/adversarial_benchmarking.py | Methods | 032_test | mmsci-py-032:latest |
python | 033_Combatting_Dimensional_Collapse_in_LLM_Pre-Trainin | 0 | 033_Combatting_Dimensional_Collapse_in_LLM_Pre-Trainin | Combatting Dimensional Collapse in LLM Pre-Training Data via Submodular File Selection | Data Selection Algorithm | cal_corre | code/DISF/select_disf.py | Methods | 033_test | mmsci-py-033:latest |
python | 033_Combatting_Dimensional_Collapse_in_LLM_Pre-Trainin | 1 | 033_Combatting_Dimensional_Collapse_in_LLM_Pre-Trainin | Combatting Dimensional Collapse in LLM Pre-Training Data via Submodular File Selection | Data Selection Algorithm | hunger_select | code/DISF/select_disf.py | Methods | 033_test | mmsci-py-033:latest |
python | 033_Combatting_Dimensional_Collapse_in_LLM_Pre-Trainin | 2 | 033_Combatting_Dimensional_Collapse_in_LLM_Pre-Trainin | Combatting Dimensional Collapse in LLM Pre-Training Data via Submodular File Selection | Data Selection Algorithm | cal_egin | code/Visual&verify/dominance_score.py | Results | 033_test | mmsci-py-033:latest |
python | 036_HiRA_Parameter-Efficient_Hadamard_High-Rank_Adapta | 0 | 036 | HiRA: Parameter-Efficient Hadamard High-Rank Adaptation for Large Language Models | Parameter-Efficient Fine-Tuning | forward | code/hira/tuners/lora.py | Methods | 036_test | mmsci-py-036:latest |
python | 036_HiRA_Parameter-Efficient_Hadamard_High-Rank_Adapta | 1 | 036 | HiRA: Parameter-Efficient Hadamard High-Rank Adaptation for Large Language Models | Parameter-Efficient Fine-Tuning | update_layer | code/hira/tuners/lora.py | Methods | 036_test | mmsci-py-036:latest |
python | 036_HiRA_Parameter-Efficient_Hadamard_High-Rank_Adapta | 2 | 036 | HiRA: Parameter-Efficient Hadamard High-Rank Adaptation for Large Language Models | Parameter-Efficient Fine-Tuning | reset_lora_parameters | code/hira/tuners/lora.py | Methods | 036_test | mmsci-py-036:latest |
python | 037_On_Conformal_Isometry_of_Grid_Cells_Learning_Dista | 0 | 037 | On Conformal Isometry of Grid Cells: Learning Distance-Preserving Position Embedding | Deep Learning Architecture | gridnessScore | code/source.py | Results | 037_test | mmsci-py-037:latest |
python | 039_A_Theoretically-Principled_Sparse_Connected_and_Ri | 0 | 039 | A Theoretically-Principled Sparse, Connected, and Rigid Graph Representation of Molecules | Graph Neural Networks | project_sphere | code/mol_unit_sphere.py | Methods | 039_test | mmsci-py-039:latest |
python | 039_A_Theoretically-Principled_Sparse_Connected_and_Ri | 1 | 039 | A Theoretically-Principled Sparse, Connected, and Rigid Graph Representation of Molecules | Graph Neural Networks | get_chull_graph | code/alignment/pyorbit/utils/qhull.py | Methods | 039_test | mmsci-py-039:latest |
python | 039_A_Theoretically-Principled_Sparse_Connected_and_Ri | 2 | 039 | A Theoretically-Principled Sparse, Connected, and Rigid Graph Representation of Molecules | Graph Neural Networks | angle_between_vectors | code/alignment/pyorbit/utils/geometry.py | Methods | 039_test | mmsci-py-039:latest |
python | 040_MOS_Model_Synergy_for_Test-Time_Adaptation_on_LiDA | 0 | 040 | MOS: Model Synergy for Test-Time Adaptation on LiDAR-Based 3D Object Detection | Test-Time Adaptation | mos | code/pcdet/tta_methods/mos.py | Methods | 040_test | mmsci-py-040:latest |
python | 040_MOS_Model_Synergy_for_Test-Time_Adaptation_on_LiDA | 1 | 040 | MOS: Model Synergy for Test-Time Adaptation on LiDAR-Based 3D Object Detection | Test-Time Adaptation | aggregate_model | code/pcdet/tta_methods/mos.py | Methods | 040_test | mmsci-py-040:latest |
python | 040_MOS_Model_Synergy_for_Test-Time_Adaptation_on_LiDA | 2 | 040 | MOS: Model Synergy for Test-Time Adaptation on LiDAR-Based 3D Object Detection | Test-Time Adaptation | hungarian_match_diff | code/pcdet/tta_methods/mos.py | Methods | 040_test | mmsci-py-040:latest |
python | 041_Unlocking_the_Power_of_Function_Vectors_for_Charac | 0 | 041_Unlocking_the_Power_of_Function_Vectors_for_Charac | Unlocking the Power of Function Vectors for Characterizing and Mitigating Catastrophic Forgetting in Continual Instruction Tuning | Deep Learning Architectures | compute_function_vector | code/src/fvector/utils/extract_utils.py | Methods | 041_test | mmsci-py-041:latest |
python | 041_Unlocking_the_Power_of_Function_Vectors_for_Charac | 1 | 041_Unlocking_the_Power_of_Function_Vectors_for_Charac | Unlocking the Power of Function Vectors for Characterizing and Mitigating Catastrophic Forgetting in Continual Instruction Tuning | Deep Learning Architectures | add_function_vector | code/src/tuning/trainer/base.py | Methods | 041_test | mmsci-py-041:latest |
python | 041_Unlocking_the_Power_of_Function_Vectors_for_Charac | 2 | 041_Unlocking_the_Power_of_Function_Vectors_for_Charac | Unlocking the Power of Function Vectors for Characterizing and Mitigating Catastrophic Forgetting in Continual Instruction Tuning | Deep Learning Architectures | training_step | code/src/tuning/trainer/base.py | Methods | 041_test | mmsci-py-041:latest |
python | 042_Robustness_Inspired_Graph_Backdoor_Defense | 0 | 042_Robustness_Inspired_Graph_Backdoor_Defense | Robustness Inspired Graph Backdoor Defense | Graph Neural Networks and Backdoor Defense | sample_noise_all | code/defense.py | Methods | 042_test | mmsci-py-042:latest |
python | 042_Robustness_Inspired_Graph_Backdoor_Defense | 1 | 042_Robustness_Inspired_Graph_Backdoor_Defense | Robustness Inspired Graph Backdoor Defense | Graph Neural Networks and Backdoor Defense | prediction_variance_calculation | code/defense.py | Methods | 042_test | mmsci-py-042:latest |
python | 042_Robustness_Inspired_Graph_Backdoor_Defense | 2 | 042_Robustness_Inspired_Graph_Backdoor_Defense | Robustness Inspired Graph Backdoor Defense | Graph Neural Networks and Backdoor Defense | fientune | code/models/GCN.py | Methods | 042_test | mmsci-py-042:latest |
python | 043_Proxy_Denoising_for_Source-Free_Domain_Adaptation | 0 | 043 | Proxy Denoising for Source-Free Domain Adaptation | Source-Free Domain Adaptation | train_target | code/src/methods/oh/ProDe.py | Methods | 043_test | mmsci-py-043:latest |
python | 043_Proxy_Denoising_for_Source-Free_Domain_Adaptation | 1 | 043 | Proxy Denoising for Source-Free Domain Adaptation | Source-Free Domain Adaptation | test_time_adapt_eval | code/src/methods/oh/ProDe.py | Methods | 043_test | mmsci-py-043:latest |
python | 043_Proxy_Denoising_for_Source-Free_Domain_Adaptation | 2 | 043 | Proxy Denoising for Source-Free Domain Adaptation | Source-Free Domain Adaptation | IID_loss | code/src/utils/IID_losses.py | Methods | 043_test | mmsci-py-043:latest |
python | 044_On_the_Identification_of_Temporal_Causal_Represent | 0 | 044 | On the Identification of Temporal Causal Representation with Instantaneous Dependence | Temporal Causal Representation Learning | NPInstantaneousTransitionPrior.forward | code/IDOL_synthetic/IDOL/modules/components/transition.py | Methods | 044_test | mmsci-py-044:latest |
python | 044_On_the_Identification_of_Temporal_Causal_Represent | 1 | 044 | On the Identification of Temporal Causal Representation with Instantaneous Dependence | Temporal Causal Representation Learning | Model.loss_function | code/realworld/model/IDOL.py | Methods | 044_test | mmsci-py-044:latest |
python | 044_On_the_Identification_of_Temporal_Causal_Represent | 2 | 044 | On the Identification of Temporal Causal Representation with Instantaneous Dependence | Temporal Causal Representation Learning | InstantaneousProcess.loss_function | code/IDOL_synthetic/IDOL/modules/instantaneous.py | Methods | 044_test | mmsci-py-044:latest |
python | 046_Learning_Dynamics_of_LLM_Finetuning | 0 | 046 | Learning Dynamics of LLM Finetuning | Deep Learning Optimization and Training Analysis | preference_loss | code/src/trainers.py | Methods | 046_test | mmsci-py-046:latest |
python | 046_Learning_Dynamics_of_LLM_Finetuning | 1 | 046 | Learning Dynamics of LLM Finetuning | Deep Learning Optimization and Training Analysis | _get_batch_logps | code/src/trainers.py | Methods | 046_test | mmsci-py-046:latest |
MMSciCode
About | Benchmark Construction | Statistics | Usage | Citation
About
This repository contains MMSciCode, a benchmark for paper-grounded scientific research coding. MMSciCode evaluates whether a model can recover masked core functions from real research code using the surrounding repository context, paper-derived context, and sample-specific implementation metadata.
The benchmark spans Python, R, and C/C++ projects collected from scientific papers and their associated code releases. Each task is evaluated by inserting the generated function back into the original project and running the corresponding unit tests.
This Hugging Face dataset repository contains both the benchmark data and the Dockerfile build assets used to reproduce the execution environments.
Benchmark Construction
MMSciCode is built from real scientific software projects through a function-level construction pipeline:
- Paper and code collection: scientific papers are paired with their released code repositories.
- Function extraction: candidate functions are extracted from each project together with file paths, line numbers, and repository structure metadata.
- Core-function selection: expert annotations identify functions that implement paper-relevant algorithms, equations, simulations, or analysis procedures.
- Task creation: selected functions are masked while preserving the surrounding code context and paper-derived implementation evidence.
- Executable validation: generated implementations are inserted back into the original project and checked with sample-specific tests.
- Environment packaging: Dockerfile build contexts are provided for the exported execution environments.
Why MMSciCode?
Scientific coding differs from short standalone programming tasks: solutions must often match paper-specific notation, domain assumptions, project-local APIs, numerical behavior, and existing repository structure. MMSciCode is designed to measure those abilities directly by using real research code and containerized execution.
Each sample directory under a language-level data/ folder includes metadata
such as available functions, selected core functions, paper or article context,
repository structure, and test status.
Statistics
| Item | Count |
|---|---|
| Function-level tasks | 624 |
| Source sample directories | 285 |
| Programming languages | 3 |
| Python samples | 203 |
| R samples | 60 |
| C/C++ samples | 22 |
| Dockerfile environment directories | 204 |
Dockerfile environment directories are organized by language-level
dockerfiles/ folders:
| Dockerfile group | Count |
|---|---|
Python/dockerfiles/ |
201 |
R/dockerfiles/ |
1 |
C_CPP/dockerfiles/ |
2 |
Repository Layout
MMSciCode/
Python/
data/
<sample_id>/
dockerfiles/
<environment_id>/
R/
data/
<sample_id>/
dockerfiles/
<environment_id>/
C_CPP/
data/
<sample_id>/
dockerfiles/
<environment_id>/
manifest.jsonl
index.tsv
build_all_serial.sh
distributable_env_dockerfiles.tar.gz
Each sample directory contains the following files. Required files are present in every sample; optional files are present when applicable.
| File | Status | Description |
|---|---|---|
selected_core_functions.json |
required | The functions selected for evaluation: function_name, sample-relative file_path, description, paper reference, formula, key-term mapping, and implementation cues. |
unit_test_status.json |
required | Execution environment (environment.conda_env_name) and the per-function test wiring (target_functions[].src_file / reference_file). See notes below. |
article_content.json |
optional | Parsed paper text (abstract / sections) used to build paper-grounded prompts. |
article_info.json or article_metadata.json |
optional | Paper title, URL, and subject. |
functions.json |
optional | Full inventory of functions extracted from the project (informational; not required by the evaluation pipeline). |
structure.txt |
optional | Repository directory tree of the original project. |
code/ or the project root dir |
required | The original project source the masked function is drawn from. |
Field-level notes for unit_test_status.json:
target_functions[].line_start/line_endare optional and may benull; they are informational and are not consumed by the evaluation pipeline (function location is resolved fromselected_core_functions.json).target_functions[].test_fileis optional and may be empty for samples whose harness discovers tests by convention.legacy_backupandvalidationhold historical build/validation records and are not required to run the benchmark.
The root files:
manifest.jsonl— one row per benchmark task (624 rows) withlanguage,sample_id,func_index,paper_id,paper_title,subject,function_name,file_path,paper_section,conda_env, anddocker_image. A task is uniquely identified by(sample_id, func_index), wherefunc_indexis the 0-based position in that sample'sselected_core_functions.json.file_pathis the sample-relative path of the file the function lives in and is tested in. This is also the file rendered by the Dataset Viewer.index.tsv— maps each Docker image name to its environment id and Dockerfile directory (image,env,dir,editable). Theeditableflag is Docker build metadata (whether the environment installs the project as an editable package); it does not indicate whether a task may be modified.distributable_env_dockerfiles.tar.gz— the same Dockerfile assets as a standalone package.
Note on original project code. Each sample bundles a real research project. That upstream source may contain the original authors' absolute paths, machine-specific comments, or non-English text. These are part of the preserved research artifact and are intentionally left unmodified; the MMSciCode-generated metadata files above have been scrubbed of any build-time paths.
Note on standalone C/C++ samples. A small number of C/C++ samples compile with the system toolchain and have no
conda_env_name(and therefore no Docker image / emptydocker_imagein the manifest). They are evaluated with a localgcc/g+++cmakebuild rather than a prebuilt container.
Usage
Downloading the Dataset
git lfs install
git clone https://huggingface.co/datasets/MMSciCode/MMSciCode
cd MMSciCode
Or download with huggingface_hub:
from huggingface_hub import snapshot_download
dataset_dir = snapshot_download(
repo_id="MMSciCode/MMSciCode",
repo_type="dataset",
)
Inspecting a Task
Each benchmark task is defined inside a language-specific data/ directory.
For example:
ls Python/data/<sample_id>
cat Python/data/<sample_id>/selected_core_functions.json
cat Python/data/<sample_id>/unit_test_status.json
selected_core_functions.json describes the functions selected for evaluation,
including their source locations, natural-language descriptions, paper
references, and implementation cues.
Building Docker Environments
The repository includes Dockerfile build contexts under the language-level
dockerfiles/ directories. To build all indexed environments serially:
chmod +x build_all_serial.sh
./build_all_serial.sh
The build script reads index.tsv, locates each Dockerfile directory under
Python/dockerfiles/, R/dockerfiles/, or C_CPP/dockerfiles/, and tags the
resulting image with the name listed in the index.
Optional build arguments can be passed through environment variables:
CONDA_MIRROR=https://mirrors.tuna.tsinghua.edu.cn/anaconda ./build_all_serial.sh
PIP_STRICT=1 ./build_all_serial.sh
Using the Standalone Dockerfile Package
If you only need the Dockerfile build contexts, extract the bundled archive:
tar -xzf distributable_env_dockerfiles.tar.gz
cd distributable_env_dockerfiles
./build_all_serial.sh
Links
| Resource | Link |
|---|---|
| Dataset | MMSciCode/MMSciCode |
| Organization | MMSciCode |
| Paper | ACL 2026 |
| Code | github.com/MMSciCode/MMSciCode |
| Dockerfile index | index.tsv |
| Docker build script | build_all_serial.sh |
Citation
If you find MMSciCode useful in your research, please cite our paper:
@inproceedings{xia-etal-2026-mmscicode,
title = "{MMS}ci{C}ode: Real-world Evaluation of Multilingual Multi-Discipline Scientific Research Coding",
author = "Xia, Xue and Yang, Zheyuan and Cohan, Arman and Zhao, Yilun",
editor = "Liakata, Maria and Moreira, Viviane P. and Zhang, Jiajun and Jurgens, David",
booktitle = "Proceedings of the 64th Annual Meeting of the Association for Computational Linguistics (Volume 1: Long Papers)",
month = jul,
year = "2026",
address = "San Diego, California, United States",
publisher = "Association for Computational Linguistics",
url = "https://aclanthology.org/2026.acl-long.1566/",
doi = "10.18653/v1/2026.acl-long.1566",
pages = "33981--33999",
ISBN = "979-8-89176-390-6"
}
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